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Development for Vegetable soybean (edamame) sorting machine to use image processing

机译:蔬菜大豆(eDamame)分拣机使用图像处理的开发

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Green vegetable soybean (Glycine max), also known as edamame in Japan, is an increasingly popular nutritious food in eastern Asia and the United States. The main producing prefectures in 2013 were Niigata (1,580 ha), Yamagata (1,460 ha), Gunma (1,150ha), Akita (1,080 ha), Chiba (854 ha), and Hokkaido (752 ha). These prefectures accounted for 55% of all the planted area in Japan. Edamame cultivation is done using advanced power farming systems in Japan. Nevertheless, sorting, the final processing ofedamame, is time-consuming: about 12 kg/hr or 48 hr/10a are necessary when using manual labor. Because even edamame is harvested at the optimal time, 36-44% of pods are classified outside the grade. Among them, 6-15% show mechanical damage. Therefore, sorting constitutes the main hurdle associated with edamame cultivation. It impedes the increase of cultivation area and limits profitability. Therefore, we developed a sorting machine to improve edamame processing efficiency. It comprises image processingunits, belt conveyors, and sorting systems with an air blaster. Work rates of developed edamame sorting machine (type-14) were 73-85 kg/hr, which were 8 times higher than those associated with manual sorting. Image-processing units detected seed maturity and edamame damage simultaneously. Sorting results which use type-14 showed average sorting accuracy indexes (n=n_3+q_b-1) of 0.20. This sorting accuracy was 0.10 point better than type-13. The edamame sorting machine accuracy reached 0.55 for good pods (na) and 0.63 for bad pods (nb), each of which was inferior to manual sorting.
机译:绿色蔬菜大豆(甘氨酸Max),也被称为日本的埃马克望,是东亚和美国日益受欢迎的食物。 2013年主要生产县是Niigata(1,580公顷),山形(1,460公顷),群马(1,150Ha),秋田(1,080公顷),千叶(854公顷)和北海道(752公顷)。这些县占日本所有种植区的55%。埃马罕默德培养是在日本的先进电力农业系统完成的。然而,排序,eDamame的最终处理是耗时:在使用手工劳动时需要约12kg / hr或48小时/ 10a。因为即使是在最佳时间内收获eDamame,所以36-44%的豆荚在等级之外分类。其中,6-15%显示机械损坏。因此,分拣构成与射灯栽培相关的主要障碍。它妨碍了培养面积的增加并限制了盈利能力。因此,我们开发了一种分拣机以提高射灯处理效率。它包括图像处理单,带式输送机和带空气流器的分拣系统。开发的eDamame分拣机(Type-14)的工作速率为73-85千克/小时,比与手动分拣相关的8倍。图像处理单元检测到种子成熟度和射灯同时损坏。使用Type-14的排序结果显示了0.20的平均排序精度索引(n = n_3 + q_b-1)。该分拣精度比13型更好为0.10点。对于良好的POD(NA)和0.63,对于错误的豆荚(NB),射频分选机精度达到0.55,每个套件(NB)都差不多是手动分类。

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